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2026.03.12
基于基础海报[image1],保持原蓝白科技学术风格,按照以下要求修改: 1. 在RESEARCH BACKGROUND板块之前新增一个板块,标题为"Abstract",完整添加以下内容: To address two core issues in sliding mode current control for permanent magnet synchronous motors—first, that sliding mode chattering limits control accuracy, and second, the inherent trade-off between chattering suppression and disturbance rejection—this paper proposes a second-order terminal sliding mode control scheme based on a super-twisting reaching law. In the design of the sliding surface, a first-order integral fast terminal sliding surface is embedded into a second-order nonsingular terminal sliding surface structure. This combined design retains the chattering suppression advantage of the former while achieving the fast convergence characteristic of the latter when the system state is near the equilibrium point, and it avoids the singularity problem. In the design of the reaching law, the super-twisting sliding mode algorithm is introduced to further mitigate chattering and achieve fast convergence of the currents with steady-state-error-free tracking. Finally, simulation verification​ is conducted and compared with conventional control methods. The results demonstrate that the proposed scheme offers significant advantages in improving current dynamic response, suppressing chattering, and enhancing disturbance rejection capability. 2. 新增一个板块标题为"Core Method Framework",完整添加以下内容(全部英文): ■ Proposed Control Scheme: STA + STSMC ▎Sliding Surface Design — Second-Order Non-Singular Terminal Sliding Mode Surface Embed the first-order integral fast terminal sliding surface into the second-order non-singular terminal sliding surface structure: First-order sliding variable: s_{1d} = e_d + \int (c_{ed} \cdot e_d + c_{td} \cdot e_d^{\alpha/\beta}) d\tau Second-order sliding variable: s_{2d} = s_{1d} + c_{nd} \cdot (\dot{s}_{1d})^{m/n} Where: • e_d = i_d^* - i_d is the d-axis current tracking error • α, β are positive odd numbers, satisfying α < β • m, n are positive odd numbers, satisfying 1 < m/n < 2 • c_{ed}, c_{td}, c_{nd} are positive coefficients Design Features: ✓ Retains the chattering suppression advantage of the first-order integral fast sliding mode ✓ Has the fast convergence characteristic of the second-order non-singular terminal sliding mode near the equilibrium point ✓ Avoids the singularity problem ▎Reaching Law Design — Super-Twisting Algorithm (STA) Super-twisting sliding mode reaching law expression: \dot{s} = -p \cdot |s|^{1/2} \cdot \text{sign}(s) + y \dot{y} = -i \cdot \int \text{sign}(s) dt Nonlinear control term: u_{sw} = L_0 \cdot [ p \cdot |s|^{1/2} \cdot \text{sign}(s) + \int i \cdot \text{sign}(s) dt ] Design Advantages: ✓ Introduces the sign function into the integral term of the control voltage, which is beneficial to chattering suppression ✓ Ensures fast convergence of sliding variables in finite time ✓ Achieves zero-static-error current tracking 3. 保持画面比例为16:9横版学术海报,调整整体布局保证协调。 4. 新增一个板块标题为"Simulation Verification Results",完整添加以下内容,并将提供的两张对比曲线图[image2]和[image3]并排嵌入此板块,图片整体缩小,两张图片总面积不超过整个海报面积的1/10,保持图片清晰: Simulation Verification and Comparative Analysis Experimental Conditions: • Motor speed: 3000 r/min • d-axis reference current: i_d^* = -50 A (constant) • q-axis reference current: i_q^* steps from 20A to 87A at t=0.02s • Comparison target: conventional exponential reaching law SFTSMC vs. the proposed STA+STSMC Main Conclusions: • The proposed scheme reduces the control voltage chattering amplitude to less than 1/3 of the conventional scheme at rated speed • Effectively solves the problems of low steady-state accuracy and large current fluctuation caused by large chattering in traditional sliding mode current control • Ensures that the motor current state can track the reference signal in finite time 保持原海报的所有已有内容不变,保持原蓝白渐变科技风格一致,保持所有文字为英文,字号协调,公式清晰渲染,所有二维码区域使用纯色方块占位符呈现,方块中央标注"QR Code Placeholder"文字,严禁生成任何可识别的二维码图案,所有文字必须精确渲染,排版整齐美观。基于基础海报[image1],保持原蓝白科技学术风格,按照以下要求修改:

1. 在RESEARCH BACKGROUND板块之前新增一个板块,标题为"Abstract",完整添加以下内容:
To address two core issues in sliding mode current control for permanent magnet synchronous motors—first, that sliding mode chattering limits control accuracy, and second, the inherent trade-off between chattering suppression and disturbance rejection—this paper proposes a second-order terminal sliding mode control scheme based on a super-twisting reaching law.
In the design of the sliding surface, a first-order integral fast terminal sliding surface is embedded into a second-order nonsingular terminal sliding surface structure. This combined design retains the chattering suppression advantage of the former while achieving the fast convergence characteristic of the latter when the system state is near the equilibrium point, and it avoids the singularity problem.
In the design of the reaching law, the super-twisting sliding mode algorithm is introduced to further mitigate chattering and achieve fast convergence of the currents with steady-state-error-free tracking.
Finally, simulation verification​ is conducted and compared with conventional control methods. The results demonstrate that the proposed scheme offers significant advantages in improving current dynamic response, suppressing chattering, and enhancing disturbance rejection capability.

2. 新增一个板块标题为"Core Method Framework",完整添加以下内容(全部英文):
■ Proposed Control Scheme: STA + STSMC

▎Sliding Surface Design — Second-Order Non-Singular Terminal Sliding Mode Surface

Embed the first-order integral fast terminal sliding surface into the second-order non-singular terminal sliding surface structure:

  First-order sliding variable: s_{1d} = e_d + \int (c_{ed} \cdot e_d + c_{td} \cdot e_d^{\alpha/\beta}) d\tau
  Second-order sliding variable: s_{2d} = s_{1d} + c_{nd} \cdot (\dot{s}_{1d})^{m/n}

Where:
  • e_d = i_d^* - i_d is the d-axis current tracking error
  • α, β are positive odd numbers, satisfying α < β
  • m, n are positive odd numbers, satisfying 1 < m/n < 2
  • c_{ed}, c_{td}, c_{nd} are positive coefficients

Design Features:
  ✓ Retains the chattering suppression advantage of the first-order integral fast sliding mode
  ✓ Has the fast convergence characteristic of the second-order non-singular terminal sliding mode near the equilibrium point
  ✓ Avoids the singularity problem

▎Reaching Law Design — Super-Twisting Algorithm (STA)

Super-twisting sliding mode reaching law expression:

  \dot{s} = -p \cdot |s|^{1/2} \cdot \text{sign}(s) + y
  \dot{y} = -i \cdot \int \text{sign}(s) dt

Nonlinear control term:

  u_{sw} = L_0 \cdot [ p \cdot |s|^{1/2} \cdot \text{sign}(s) + \int i \cdot \text{sign}(s) dt ]

Design Advantages:
  ✓ Introduces the sign function into the integral term of the control voltage, which is beneficial to chattering suppression
  ✓ Ensures fast convergence of sliding variables in finite time
  ✓ Achieves zero-static-error current tracking

3. 保持画面比例为16:9横版学术海报,调整整体布局保证协调。

4. 新增一个板块标题为"Simulation Verification Results",完整添加以下内容,并将提供的两张对比曲线图[image2]和[image3]并排嵌入此板块,图片整体缩小,两张图片总面积不超过整个海报面积的1/10,保持图片清晰:

Simulation Verification and Comparative Analysis

Experimental Conditions:
  • Motor speed: 3000 r/min
  • d-axis reference current: i_d^* = -50 A (constant)
  • q-axis reference current: i_q^* steps from 20A to 87A at t=0.02s
  • Comparison target: conventional exponential reaching law SFTSMC vs. the proposed STA+STSMC

Main Conclusions:
  • The proposed scheme reduces the control voltage chattering amplitude to less than 1/3 of the conventional scheme at rated speed
  • Effectively solves the problems of low steady-state accuracy and large current fluctuation caused by large chattering in traditional sliding mode current control
  • Ensures that the motor current state can track the reference signal in finite time

保持原海报的所有已有内容不变,保持原蓝白渐变科技风格一致,保持所有文字为英文,字号协调,公式清晰渲染,所有二维码区域使用纯色方块占位符呈现,方块中央标注"QR Code Placeholder"文字,严禁生成任何可识别的二维码图案,所有文字必须精确渲染,排版整齐美观。
创意 × 2
生成一张清晰展示10条参考文献引用内容的信息图,要求排版工整,风格简约清爽,所有文字清晰可读,内容包含以下参考文献:[1] 马艺溦.生物可降解食品保鲜袋材料及其改性材料的研究[D].江苏科技大学,2025. [2] 骆文杰,张伟阳,程树军.聚乳酸薄膜包装袋对杨桃保鲜效果的研究[J].食品工业科技,2015,36(23):311-315. [3] 青岛惠泽辰材料有限公司. 一种可生物降解聚乳酸塑料的制备方法:CN20251 2028575.5[P]. 2026-03-27. [4] Lipsita Panda, Jyotishkumar Parameswaranpillai,ed, Polylactic acid-based green polymers for food packaging application. A comprehensive Review,Food Bioscience,Volume 77,2026,108335,ISSN 2212-4292. [5] Sakshi Jasrotia, Sonali Gupta, ed.Recent Advances in Polylactic Acid (PLA)- Based Sustainable Food Packaging: A Comprehensive Review,Applied Food Research,2026,102111,ISSN 2772-5022. [6] T. Angelin Swetha, Abhispa Bora,ed.A comprehensive review on polylactic acid (PLA) – Synthesis, processing and application in food packaging,International Journal of Biological Macromolecules,Volume 234,2023,123715,ISSN 0141-8130. [7] 刘文龙,雷英杰,莫晓琴,等.用于食品保鲜包装的聚乳酸透气膜研究[J].成都大学学报(自然科学版),2020,39(2):159-163. [8] 丁剑.聚乳酸/单宁酸活性包装膜的制备与性能及其在水蜜桃保鲜中的应用研究[D].上海海洋大学,2025. [9] 张琳.湿地系统中生物降解塑料的降解特性及其对微生物群落的影响研究[D].福建师范大学,2023. [10] Shuhao Wu, Yu Du, ed.Efficient fabrication of biodegradable polylactic acid/poly (butylene adipate-co-terephthalate)/titanium dioxide films integrating ethylene catalysis and antibacterial activity for fruits and vegetables preservation,Food Packaging and Shelf Life,Volume 54,2026,101713,ISSN 2214-2894.,配色清新干净,背景浅色系生成一张清晰展示10条参考文献引用内容的信息图,要求排版工整,风格简约清爽,所有文字清晰可读,内容包含以下参考文献:[1] 马艺溦.生物可降解食品保鲜袋材料及其改性材料的研究[D].江苏科技大学,2025. [2] 骆文杰,张伟阳,程树军.聚乳酸薄膜包装袋对杨桃保鲜效果的研究[J].食品工业科技,2015,36(23):311-315. [3] 青岛惠泽辰材料有限公司. 一种可生物降解聚乳酸塑料的制备方法:CN20251 2028575.5[P]. 2026-03-27. [4] Lipsita Panda, Jyotishkumar Parameswaranpillai,ed, Polylactic acid-based green polymers for food packaging application. A comprehensive Review,Food Bioscience,Volume 77,2026,108335,ISSN 2212-4292. [5] Sakshi Jasrotia, Sonali Gupta, ed.Recent Advances in Polylactic Acid (PLA)- Based Sustainable Food Packaging: A Comprehensive Review,Applied Food Research,2026,102111,ISSN 2772-5022. [6] T. Angelin Swetha, Abhispa Bora,ed.A comprehensive review on polylactic acid (PLA) – Synthesis, processing and application in food packaging,International Journal of Biological Macromolecules,Volume 234,2023,123715,ISSN 0141-8130. [7] 刘文龙,雷英杰,莫晓琴,等.用于食品保鲜包装的聚乳酸透气膜研究[J].成都大学学报(自然科学版),2020,39(2):159-163. [8] 丁剑.聚乳酸/单宁酸活性包装膜的制备与性能及其在水蜜桃保鲜中的应用研究[D].上海海洋大学,2025. [9] 张琳.湿地系统中生物降解塑料的降解特性及其对微生物群落的影响研究[D].福建师范大学,2023. [10] Shuhao Wu, Yu Du, ed.Efficient fabrication of biodegradable polylactic acid/poly (butylene adipate-co-terephthalate)/titanium dioxide films integrating ethylene catalysis and antibacterial activity for fruits and vegetables preservation,Food Packaging and Shelf Life,Volume 54,2026,101713,ISSN 2214-2894.,配色清新干净,背景浅色系
学术信息海报第一页,标题为"学界动向——认知神经科学与人机共生 (Human-AI Symbiosis)",副标题"探讨从'工具使用'向'智能协作'的理论转型"。整体分为三个板块: 左侧栏:宏观趋势与政策核心方向:列出"神经人因学 (Neuroergonomics):利用脑机接口(BCI)和便携式脑成像技术监控工作负荷。可解释AI (XAI) 与信任建模:研究人类如何建立对算法决策的合理信任。道德与算法偏见:探讨人因干预在算法公平性中的学术地位。",下方是关键人物:"Raja Parasuraman:神经人因学奠基人,其理论持续影响当下的自动化研究。Ben Shneiderman:倡导'以人为本的AI(HCAI)',平衡人类控制与计算机自动化。",再下方是主要政策/刊物:"IEEE Transactions on Human-Machine Systems 前沿课题。欧盟《人工智能法案》(AI Act)对人机交互安全性的最新学术指引。" 中间板块:标题"前沿研究案例",国内研究案例:"清华/浙大 脑机交互实验室 突破点:异步非侵入式BCI在残障人士辅助系统中的应用,实现高精度的意图识别。解析:将认知模型转化为控制指令,突破传统肢体交互的物理极限。",国际研究案例:"斯坦福 Human-Centered AI (HAI) 中心 研究点:'情境感知的协作机器人(Cobots)'。解析:机器人通过眼动追踪和生理电信号判断工人的疲劳状态,动态调整协作步调。" 右侧板块:标题"学术演进对比与技术矩阵",列出技术应用对比表: 维度 | 传统人因工程 | 前沿人因工程 (HFE 4.0) 交互媒介 | 物理按键/屏幕 | 脑机/语音/手势/眼动 评估手段 | 问卷/主观量表 | 实时神经反馈/生理参数 人机关系 | 操作者与工具 | 协作伙伴与共生体 保持参考图的学术信息排版风格,米黄色背景,搭配浅蓝色和浅黄色信息块,清晰图文排版,学术简洁风格,信息完整清晰。学术信息海报第一页,标题为"学界动向——认知神经科学与人机共生 (Human-AI Symbiosis)",副标题"探讨从'工具使用'向'智能协作'的理论转型"。整体分为三个板块:
左侧栏:宏观趋势与政策核心方向:列出"神经人因学 (Neuroergonomics):利用脑机接口(BCI)和便携式脑成像技术监控工作负荷。可解释AI (XAI) 与信任建模:研究人类如何建立对算法决策的合理信任。道德与算法偏见:探讨人因干预在算法公平性中的学术地位。",下方是关键人物:"Raja Parasuraman:神经人因学奠基人,其理论持续影响当下的自动化研究。Ben Shneiderman:倡导'以人为本的AI(HCAI)',平衡人类控制与计算机自动化。",再下方是主要政策/刊物:"IEEE Transactions on Human-Machine Systems 前沿课题。欧盟《人工智能法案》(AI Act)对人机交互安全性的最新学术指引。"
中间板块:标题"前沿研究案例",国内研究案例:"清华/浙大 脑机交互实验室 突破点:异步非侵入式BCI在残障人士辅助系统中的应用,实现高精度的意图识别。解析:将认知模型转化为控制指令,突破传统肢体交互的物理极限。",国际研究案例:"斯坦福 Human-Centered AI (HAI) 中心 研究点:'情境感知的协作机器人(Cobots)'。解析:机器人通过眼动追踪和生理电信号判断工人的疲劳状态,动态调整协作步调。"
右侧板块:标题"学术演进对比与技术矩阵",列出技术应用对比表:
维度 | 传统人因工程 | 前沿人因工程 (HFE 4.0)
交互媒介 | 物理按键/屏幕 | 脑机/语音/手势/眼动
评估手段 | 问卷/主观量表 | 实时神经反馈/生理参数
人机关系 | 操作者与工具 | 协作伙伴与共生体
保持参考图的学术信息排版风格,米黄色背景,搭配浅蓝色和浅黄色信息块,清晰图文排版,学术简洁风格,信息完整清晰。
横向商务排期图(甘特图样式),白色背景,整体参考第二张图的时间轴+彩色条块版式结构,配色体系参照第二张图(蓝色为主色调,搭配绿色、橙色、黑色等区分不同模块)。 顶部大标题:"一、总体节奏规划(Roadmap)",黑色粗体大字,居中。 顶部时间轴:一条横向灰色时间轴线,上面有5个金色圆形节点,分别标注时间:"2025.02"、"2025.03"、"2025.04"、"2025.05"、"2025.06-持续" 时间轴上方对应5个蓝色矩形标签,白色文字:"STEP1 预热期"、"STEP2 爆发期"、"STEP2 爆发期"、"STEP3 延续期"、"STEP4 转化期" 下方为5行彩色条块排期,每行左侧为模块名称,右侧为对应时间段的彩色条块,条块内白色文字标注内容: 第1行(蓝色条块)- 白皮书: - 2025.02位置:蓝色条块,文字"预热发布" - 2025.03位置:蓝色条块,文字"正式发布·留资入口开启" - 2025.06-持续位置:蓝色条块,文字"持续分发" 第2行(浅蓝色/蓝色条块)- KOL测评: - 2025.02位置:蓝色条块,文字"KOL筛选与内容共创" - 2025.03位置:蓝色条块,文字"内容共创" - 2025.04位置:蓝色条块,文字"测评内容集中发布" - 2025.05位置:蓝色条块,文字"二次传播与发酵" - 2025.06-持续位置:蓝色条块,文字"长尾持续导流" 第3行(绿色条块)- 发布会: - 2025.02位置:绿色条块,文字"筹备" - 2025.03位置:绿色条块,文字"三地巡回私享会" - 2025.04位置:绿色条块,文字"三地巡回私享会" - 2025.05位置:绿色条块,文字"会后试样跟进" - 2025.06-持续位置:绿色条块,文字"试样跟进与转化" 第4行(橙色条块)- 学术背书: - 2025.02位置:橙色条块,文字"初步接洽" - 2025.03位置:橙色条块,文字"合作推进" - 2025.04位置:橙色条块,文字"合作推进" - 2025.05位置:橙色条块,文字"正式落地·权威背书" - 2025.06-持续位置:橙色条块,文字"学术成果持续发酵" 第5行(深灰/黑色条块)- 转化收口: - 2025.03位置:深色条块,文字"留资+属地跟进" - 2025.04位置:深色条块,文字"留资+属地跟进" - 2025.05位置:深色条块,文字"试样推进+销售转化" - 2025.06-持续位置:深色条块,文字"持续转化" 整体风格:商务专业、简洁清晰,排版精美,对齐工整,色彩区分明确,所有文字清晰可读,画面为完整的成品排期图。横向商务排期图(甘特图样式),白色背景,整体参考第二张图的时间轴+彩色条块版式结构,配色体系参照第二张图(蓝色为主色调,搭配绿色、橙色、黑色等区分不同模块)。

顶部大标题:"一、总体节奏规划(Roadmap)",黑色粗体大字,居中。

顶部时间轴:一条横向灰色时间轴线,上面有5个金色圆形节点,分别标注时间:"2025.02"、"2025.03"、"2025.04"、"2025.05"、"2025.06-持续"
时间轴上方对应5个蓝色矩形标签,白色文字:"STEP1 预热期"、"STEP2 爆发期"、"STEP2 爆发期"、"STEP3 延续期"、"STEP4 转化期"

下方为5行彩色条块排期,每行左侧为模块名称,右侧为对应时间段的彩色条块,条块内白色文字标注内容:

第1行(蓝色条块)- 白皮书:
- 2025.02位置:蓝色条块,文字"预热发布"
- 2025.03位置:蓝色条块,文字"正式发布·留资入口开启"
- 2025.06-持续位置:蓝色条块,文字"持续分发"

第2行(浅蓝色/蓝色条块)- KOL测评:
- 2025.02位置:蓝色条块,文字"KOL筛选与内容共创"
- 2025.03位置:蓝色条块,文字"内容共创"
- 2025.04位置:蓝色条块,文字"测评内容集中发布"
- 2025.05位置:蓝色条块,文字"二次传播与发酵"
- 2025.06-持续位置:蓝色条块,文字"长尾持续导流"

第3行(绿色条块)- 发布会:
- 2025.02位置:绿色条块,文字"筹备"
- 2025.03位置:绿色条块,文字"三地巡回私享会"
- 2025.04位置:绿色条块,文字"三地巡回私享会"
- 2025.05位置:绿色条块,文字"会后试样跟进"
- 2025.06-持续位置:绿色条块,文字"试样跟进与转化"

第4行(橙色条块)- 学术背书:
- 2025.02位置:橙色条块,文字"初步接洽"
- 2025.03位置:橙色条块,文字"合作推进"
- 2025.04位置:橙色条块,文字"合作推进"
- 2025.05位置:橙色条块,文字"正式落地·权威背书"
- 2025.06-持续位置:橙色条块,文字"学术成果持续发酵"

第5行(深灰/黑色条块)- 转化收口:
- 2025.03位置:深色条块,文字"留资+属地跟进"
- 2025.04位置:深色条块,文字"留资+属地跟进"
- 2025.05位置:深色条块,文字"试样推进+销售转化"
- 2025.06-持续位置:深色条块,文字"持续转化"

整体风格:商务专业、简洁清晰,排版精美,对齐工整,色彩区分明确,所有文字清晰可读,画面为完整的成品排期图。